TY - CHAP A1 - Weyland, Michael A1 - Pallast, Gregor A1 - Tiberius, Victor ED - Brahm, Taiga ED - Iberer, Ulrich ED - Kärner, Tobias ED - Weyland, Michael T1 - Ökonomisches Denken fördern durch kognitiv aktivierende Aufgaben T2 - Ökonomisches Denken lehren und lernen N2 - In diesem Beitrag möchten wir einen Gedanken des amerikanischen Mathematikers Paul Halmos aufgreifen und konkretisieren. Wir möchten verdeutlichen, dass ökonomisches Denken nicht abstrakt gelehrt, sondern „erfahren“ werden muss, wenn es nachhaltig und in seiner ganzen Breite gefördert werden soll. Dazu dienen kognitiv aktivierende Aufgaben. Was man darunter versteht und welche Funktionen und Qualitätsmerkmale Aufgaben in der ökonomischen Bildung besitzen, verdeutlichen wir in den Abschnitten 1 und 2. Im Praxisteil (Abschnitte 3 bis 8) werden konkrete, unterrichtlich erprobte Beispielaufgaben vorgestellt, mit denen ökonomisches Denken erfolgreich gefördert werden kann. Unser Beitrag schließt mit einer kurzen Skizze wirtschaftsdidaktischer Implikationen (Abschnitt 9). N2 - In this chapter, we refer to the American mathematician Paul Halmos’ notion that economic thinking cannot be taught in an abstract way but has to be “experienced” so that it can be facilitated in a sustainable and broad way. This can be accomplished with cognitively activating tasks. In sections 1 and 2, we define these and explain their functions and quality requirements for economic education. In the practice sections 3 to 8, we show specific exemplary tasks, which have been successfully tested in classes tofoster economic thinking. The chapter concludes with implications for economic education. KW - Ökonomische Bildung KW - kognitive Aktivierung KW - Lernaufgaben KW - ökonomische Experimente KW - Verhaltensökonomie KW - Umweltökonomie KW - economic education KW - cognitive activation KW - tasks KW - classroom experiments KW - behavioral economics KW - environmental economics Y1 - 2022 UR - https://elibrary.utb.de/doi/book/10.3278/9783763973088 SN - 978-3-7639-7048-3 SN - 978-3-7639-7308-8 U6 - https://doi.org/10.3278/9783763973088_25 SP - 26 EP - 48 PB - wbv CY - Bielefeld ER - TY - JOUR A1 - Merfort, Leon A1 - Bauer, Nico A1 - Humpenöder, Florian A1 - Klein, David A1 - Strefler, Jessica A1 - Popp, Alexander A1 - Luderer, Gunnar A1 - Kriegler, Elmar T1 - Bioenergy-induced land-use-change emissions with sectorally fragmented policies JF - Nature climate change N2 - Controlling bioenergy-induced land-use-change emissions is key to exploiting bioenergy for climate change mitigation. However, the effect of different land-use and energy sector policies on specific bioenergy emissions has not been studied so far. Using the global integrated assessment model REMIND-MAgPIE, we derive a biofuel emission factor (EF) for different policy frameworks. We find that a uniform price on emissions from both sectors keeps biofuel emissions at 12 kg CO2 GJ−1. However, without land-use regulation, the EF increases substantially (64 kg CO2 GJ−1 over 80 years, 92 kg CO2 GJ−1 over 30 years). We also find that comprehensive coverage (>90%) of carbon-rich land areas worldwide is key to containing land-use emissions. Pricing emissions indirectly on the level of bioenergy consumption reduces total emissions by cutting bioenergy demand but fails to reduce the average EF. In the absence of comprehensive and timely land-use regulation, bioenergy thus may contribute less to climate change mitigation than assumed previously. KW - agriculture KW - climate-change mitigation KW - energy policy KW - energy supply and demand KW - environmental economics Y1 - 2023 U6 - https://doi.org/10.1038/s41558-023-01697-2 SN - 1758-678X SN - 1758-6798 VL - 13 IS - 7 SP - 685 EP - 692 PB - Nature Publ. Group CY - London ER - TY - JOUR A1 - Merfort, Leon A1 - Bauer, Nico A1 - Humpenöder, Florian A1 - Klein, David A1 - Strefler, Jessica A1 - Popp, Alexander A1 - Luderer, Gunnar A1 - Kriegler, Elmar T1 - State of global land regulation inadequate to control biofuel land-use-change emissions JF - Nature climate change N2 - Under current land-use regulation, carbon dioxide emissions from biofuel production exceed those from fossil diesel combustion. Therefore, international agreements need to ensure the effective and globally comprehensive protection of natural land before modern bioenergy can effectively contribute to achieving carbon neutrality. KW - agriculture KW - climate-change mitigation KW - energy policy KW - energy supply and demand KW - environmental economics Y1 - 2023 U6 - https://doi.org/10.1038/s41558-023-01711-7 SN - 1758-678X SN - 1758-6798 VL - 13 IS - 7 SP - 610 EP - 612 PB - Nature Publ. Group CY - London ER - TY - JOUR A1 - Bersalli, Germán A1 - Tröndle, Tim A1 - Lilliestam, Johan T1 - Most industrialised countries have peaked carbon dioxide emissions during economic crises through strengthened structural change JF - Communications earth & environment N2 - As the climate targets tighten and countries are impacted by several crises, understanding how and under which conditions carbon dioxide emissions peak and start declining is gaining importance. We assess the timing of emissions peaks in all major emitters (1965–2019) and the extent to which past economic crises have impacted structural drivers of emissions contributing to emission peaks. We show that in 26 of 28 countries that have peaked emissions, the peak occurred just before or during a recession through the combined effect of lower economic growth (1.5 median percentage points per year) and decreasing energy and/or carbon intensity (0.7) during and after the crisis. In peak-and-decline countries, crises have typically magnified pre-existing improvements in structural change. In non-peaking countries, economic growth was less affected, and structural change effects were weaker or increased emissions. Crises do not automatically trigger peaks but may strengthen ongoing decarbonisation trends through several mechanisms. KW - climate-change mitigation KW - economics KW - environmental economics KW - environmental studies Y1 - 2023 U6 - https://doi.org/10.1038/s43247-023-00687-8 SN - 2662-4435 VL - 4 IS - 1 SP - 44 EP - 44 PB - Springer Nature CY - London ER -